IRP Research Leads to First FDA-Approved Therapy for Merkel Cell Carcinoma
May is Skin Cancer Awareness Month. Skin cancers are the most common cancer in the U.S., affecting as many as five million people every year. Yet the rarest of these cancers is also one of the deadliest. Merkel cell carcinoma affects about 3,000 Americans each year, and until recently a lack of effective treatments meant only half of patients survived five years or longer after diagnosis. The median survival was nine months.
This bleak outlook changed radically in 2017 with the US Food and Drug Administration (FDA) approval of a new immunotherapy drug called avelumab. Developed through a collaboration between IRP researchers and the pharmaceutical company EMD Serono, Inc., and marketed as Bavencio, avelumab was the first treatment approved specifically for Merkel cell carcinoma.
Findings Point to Approaches for Staving Off Health Problems in Infected Individuals
Over the four decades since it mysteriously began destroying the immune systems of Americans in New York and California, HIV has proven to be a frustratingly wily opponent for scientists. Even today, when treatments can fully suppress the virus in infected individuals, it continues to harm their health. A new IRP study has identified several ways dormant HIV might chronically stimulate the immune system, suggesting potential avenues for preventing the health problems that causes.
Decades Later, IRP Researcher’s Discovery Is Used in Labs Around the World
National DNA Day, held on April 25, commemorates the completion of the Human Genome Project in 2003 and the day in 1953 when a research team led by Drs. James Watson, Francis Crick, Maurice Wilkins, and Rosalind Franklin published their groundbreaking paper on the structure of DNA in the journal Nature.
The mapping of DNA’s structure opened the door to modern genetics and our current understanding of how DNA affects the health and survival of all living things. Since then, there have been numerous additional major leaps forward in the field of genetics. Among them was the discovery of a universal hallmark of DNA damage by IRP Scientist Emeritus William Bonner, Ph.D., an advance that revolutionized the study of how cells sense and repair genetic defects. Dr. Bonner’s findings paved the way for a deeper understanding of cell biology, as well as clinical advances for treating cancer and for assessing risks from radiation in the environment.
Studies of Blood Stem Cells Stimulate Pioneering Therapeutic Approaches
The National Academy of Medicine (NAM), first established in 1970 by the National Academy of Sciences as the Institute of Medicine (IOM), is comprised of more than 2,000 elected members from around the world who provide scientific and policy guidance on important matters relating to human health. Election to the NAM is considered one of the highest honors in the fields of health and medicine and recognizes individuals who have not only made critical scientific discoveries but have also demonstrated a laudable commitment to public service.
IRP Distinguished Investigator Cynthia E. Dunbar, M.D., was elected to the NAM last year for her pioneering research into hematopoietic stem cells, the cells in bone marrow that develop into oxygen-carrying red blood cells, infection-fighting white blood cells, and clot-forming platelets. Her work has led to valuable insights into the production of those blood cells, called hematopoiesis, and its role in human health. Her discoveries have also resulted in new approaches to treat disease by improving stem cell functioning or manipulating stem cells with gene therapy.
New Approach Could Enhance Existing Treatments for Debilitating Genetic Disease
The prospect of editing our DNA to treat genetic diseases may have captured the imaginations of scientists and the public in recent years, but that doesn’t mean there aren’t other ways of combating these illnesses. Many promising therapies act not on DNA itself but rather on DNA’s often overlooked cousin, RNA. For instance, experiments in cells performed by IRP researchers have shown promising results or a RNA-targeting therapeutic developed to treat the debilitating genetic disease spinal muscular atrophy.
New Imaging Approach Improves Care for Men at Risk of Prostate Cancer
The National Academy of Medicine (NAM), first established in 1970 by the National Academy of Sciences as the Institute of Medicine (IOM), is comprised of more than 2,000 elected members from around the world who provide scientific and policy guidance on important matters relating to human health. Election to the NAM is considered one of the highest honors in the fields of health and medicine and recognizes individuals who have not only made critical scientific discoveries but have also demonstrated a laudable commitment to public service.
IRP senior investigator Peter Choyke, M.D., was elected to the NAM last year for his pioneering advances in imaging technologies for prostate cancer, which have improved diagnosis and treatment. Dr. Choyke, who directs the Molecular Imaging Branch at the National Cancer Institute (NCI), harnessed artificial intelligence to superimpose images from magnetic resonance imaging (MRI) scans onto images taken in real time using ultrasound, thereby enhancing doctors’ ability to non-invasively examine prostate tumors. This allows doctors to be more precise with their biopsies, thereby lowering discomfort and the risk of nerve damage when they take samples of the tumor. Better yet, if the images show no signs of cancer, patients can skip the invasive biopsy procedure entirely and just continue regular monitoring and checkups.
Unconventional Genetic Strategy Could Enhance Production of Medical Treatments
We all have bad days on the job — your colleague keeps bugging you, your boss yelled at you for an innocent mistake, and you skipped lunch because you have 10 different deadlines coming up. Understandably, many people find it much harder to get their work done under such stressful circumstances. Microbes that produce chemicals for medicine and scientific research experience similar struggles, but a recent IRP study has found that short-circuiting their stress response makes them far more efficient at that task.
New Receptors and Radioactively Labeled Molecules Could Provide Useful Tools for Research and Medicine
Genetically modifying neurons to enable scientists and clinicians to influence brain activity probably sounds like the stuff of science fiction. However, the technology has existed for more than a decade, allowing scientists to make important leaps in understanding how neurons communicate with one another in healthy individuals and those with psychological and neurological conditions. What’s more, recent improvements to these tools developed by researchers led by IRP investigator Mike Michaelides, Ph.D., may allow neurologists to use them to deliver drugs to just the right brain cells to treat those ailments effectively without the side effects caused by current treatments.
This past January marked the one-year anniversary of NIH’s role in addressing COVID-19. For many, it has been a year of hardships and grief, but the race to subdue this new virus has also tapped into the resolve and ingenuity of IRP staff who have already helped create diagnostic tests, vaccines, and therapeutics. Let's take a look back to see a few examples of how IRP scientists and staff have contributed to the fight against COVID-19, as well as how the pandemic has changed life at the NIH.
Even in the midst of a global pandemic, life at NIH goes on. IRP researchers continue to run experiments, publish scientific papers, and train the next generation of scientists, including the many graduate students performing research in IRP labs through the Graduate Partnership Program. On February 17 and 18, more than 100 of these scientists-in-training presented their work virtually at the NIH’s 17th annual Graduate Student Research Symposium. Like last year’s entirely online Postbac Poster Day, the event overcame the constraints of COVID-19 precautions to showcase a broad range of research, including several studies focused on the novel coronavirus.
This page was last updated on Friday, January 14, 2022
